Cristina M Quintella

Dr. Cristina M Quintella

orcid

Research Focus & Metrics

Academic Career Length

36Years (1991-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2007 in Journal of Chromatography A
Verified
Journal Article
Closed access
SFSergio Luis Costa Ferreira
Sergio Luis Costa Ferreira
RBRoy Edward Bruns
Roy Edward Bruns
ESErik Galvão Paranhos da Silva
Erik Galvão Paranhos da Silva
WSWalter Nei Lopes dos Santos
Walter Nei Lopes dos Santos
CQCristina M Quintella
Cristina M Quintella
BNBenicio Barros Neto
Benicio Barros Neto

25 May 2007 in Energy & Fuels
Verified
Journal Article
Closed access
NRNúbia M. Ribeiro
Núbia M. Ribeiro
APAngelo C. Pinto
Angelo C. Pinto
CQCristina M Quintella
Cristina M Quintella
‖R‖ Gisele O. da Rocha
‖ Gisele O. da Rocha
Leonardo Sena Gomes TeixeiraLeonardo Sena Gomes Teixeira
Leonardo Sena Gomes Teixeira
JAJailson Bittencourt de Andrade
Jailson Bittencourt de Andrade

1 July 2019 in Journal of Environmental Management
Verified
Journal Article
Closed access
CQCristina M Quintella
Cristina M Quintella
AMAna MAT Mata
Ana MAT Mata
LLLeandro C.P. Lima
Leandro C.P. Lima

1 July 2011 in Talanta
Verified
Journal Article
Closed access
MMMarilena Meira
Marilena Meira
CQCristina M Quintella
Cristina M Quintella
ATAlessandra dos Santos Tanajura
Alessandra dos Santos Tanajura
HSHumbervânia Reis Gonçalves da Silva
Humbervânia Reis Gonçalves da Silva
JFJaques D’eRasmo Santos Fernando
Jaques D’eRasmo Santos Fernando
LNLuciana Lordelo Nascimento
Luciana Lordelo Nascimento

3 August 2004 in Engineering in Life Sciences
Verified
Journal Article
Closed access
PDF file
PAPaulo Fernando de Almeida
Paulo Fernando de Almeida
RMR. S. Moreira
R. S. Moreira
RAR.C.C. Almeida
R.C.C. Almeida
AGA. K. Guimarães
A. K. Guimarães
ACA. S. Carvalho
A. S. Carvalho
CTC. A. Taft
C. A. Taft

1 January 2011 in Energy Procedia
Verified
Journal Article
Open access
CQCristina M Quintella
Cristina M Quintella
SHSueli Akemi Hatimondi
Sueli Akemi Hatimondi
AMAna Paula Santana Musse
Ana Paula Santana Musse
SMSabrina Freire Miyazaki
Sabrina Freire Miyazaki
GCGabriela Silva Cerqueira
Gabriela Silva Cerqueira
AMAndréa de Araujo Moreira
Andréa de Araujo Moreira
This paper presents the contextualized overview of the CO2 capture technology, with critical evaluation of state-of-art and technological development through patents applications and scientific articles. The scientific research and technological development and innovation of CO2 capture is mapped, providing not only an overview, but also concrete basis to define and optimize research and development (R&D) perspectives. It relates the stage of scientific, technologic and innovation development relate to the actions of the Intergovernmental Panel on Climate Change (IPCC) to ensure the reduction of the global warming due to anthropogenic emissions of greenhouse gases (GHG) into the atmosphere. The yearly monitoring of actions is presented, focusing on scientific, technologic and innovation from governments and companies acting within various countries in an attempt to mitigate the effects of global climate change. The mapping of the capture technologies was focused on absorption, adsorption, membranes, cryogenic, enzymatic and hybrid. The capture technologies are also mapped according to the CO2 capture process (post-combustion, pre-combustion and oxy-combustion). The results are analyzed in terms of priority date, annual evolution of the patents portifolia, technology owners (country, continent, sector of society, companies, (R&D institutions), inventors and their countries, authors of scientific articles, article copyright owners, institutions and countries where the scientific research reported in the articles was performed, patent type (process, method, prototype, product, etc.), patents classification codes showing technologic trends and fields, type of gas source where CO2 is captured, type of processes and type of gas outputs after CO2 capture, details of the components and of the processes for each method capture, among other trends. The results are contextualized in terms of methods of CO2 capture processes, focusing on technology for IPCC, roadmaps, and government programs and strategies for reducing CO2 emissions into the atmosphere. All the capture technologies are growing yearly, both in patent applications and in articles. Absorption and adsorption are the most used capture technologies, post-combustion is the most used capture process, and most of the patents refer to CO2 separation and removal. Most of the copyrights belong to Elsevier and American Physical Society, USA detains 52% of the patent applications and 31% of the articles published. The other patent applications belong mainly to Germany, France, Japan and United Kingdom. The countries with more aggressive appropriation policies are France, Norway, Germany, USA and Netherland. There is a strong correlation between countries of the technology owners and clear CCS government policies. The patent applications refer to over thirty entry gas currents, being focused on combustion and post combustion processes, followed by natural gas specification. New trends like Chemical Looping Combustion (CLC), Chemical Looping Reforming (CLR) are also focused